Herpes simplex virus-binding IgG traps HSV in human cervicovaginal mucus across the menstrual cycle and diverse vaginal microbial composition

IgG possesses an important yet little recognized effector function in mucus. IgG bound to viral surface can immobilize otherwise readily diffusive viruses to the mucin matrix, excluding them from contacting target cells and facilitating their elimination by natural mucus clearance mechanisms. Cervic...

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Veröffentlicht in:Mucosal immunology 2018-09, Vol.11 (5), p.1477-1486
Hauptverfasser: Schroeder, Holly A., Nunn, Kenetta L., Schaefer, Alison, Henry, Christine E., Lam, Felix, Pauly, Michael H., Whaley, Kevin J., Zeitlin, Larry, Humphrys, Mike S., Ravel, Jacques, Lai, Samuel K.
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container_end_page 1486
container_issue 5
container_start_page 1477
container_title Mucosal immunology
container_volume 11
creator Schroeder, Holly A.
Nunn, Kenetta L.
Schaefer, Alison
Henry, Christine E.
Lam, Felix
Pauly, Michael H.
Whaley, Kevin J.
Zeitlin, Larry
Humphrys, Mike S.
Ravel, Jacques
Lai, Samuel K.
description IgG possesses an important yet little recognized effector function in mucus. IgG bound to viral surface can immobilize otherwise readily diffusive viruses to the mucin matrix, excluding them from contacting target cells and facilitating their elimination by natural mucus clearance mechanisms. Cervicovaginal mucus (CVM) is populated by a microbial community, and its viscoelastic and barrier properties can vary substantially not only across the menstrual cycle, but also in women with distinct microbiota. How these variations impact the “muco-trapping” effector function of IgGs remains poorly understood. Here we obtained multiple fresh, undiluted CVM specimens ( n  = 82 unique specimens) from six women over time, and employed high-resolution multiple particle tracking to quantify the mobility of fluorescent Herpes Simplex Viruses (HSV-1) in CVM treated with different HSV-1-binding IgG. The IgG trapping potency was then correlated to the menstrual cycle, and the vaginal microbial composition was determined by 16 s rRNA. In the specimens studied, both polyclonal and monoclonal HSV-1-binding IgG appeared to consistently and effectively trap HSV-1 in CVM obtained at different times of the menstrual cycle and containing a diverse spectrum of commensals, including G . vaginalis -dominant microbiota. Our findings underscore the potential broad utility of this “muco-trapping” effector function of IgG to reinforce the vaginal mucosal defense, and motivates further investigation of passive immunization of the vagina as a strategy to protect against vaginally transmitted infections.
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IgG bound to viral surface can immobilize otherwise readily diffusive viruses to the mucin matrix, excluding them from contacting target cells and facilitating their elimination by natural mucus clearance mechanisms. Cervicovaginal mucus (CVM) is populated by a microbial community, and its viscoelastic and barrier properties can vary substantially not only across the menstrual cycle, but also in women with distinct microbiota. How these variations impact the “muco-trapping” effector function of IgGs remains poorly understood. Here we obtained multiple fresh, undiluted CVM specimens ( n  = 82 unique specimens) from six women over time, and employed high-resolution multiple particle tracking to quantify the mobility of fluorescent Herpes Simplex Viruses (HSV-1) in CVM treated with different HSV-1-binding IgG. The IgG trapping potency was then correlated to the menstrual cycle, and the vaginal microbial composition was determined by 16 s rRNA. In the specimens studied, both polyclonal and monoclonal HSV-1-binding IgG appeared to consistently and effectively trap HSV-1 in CVM obtained at different times of the menstrual cycle and containing a diverse spectrum of commensals, including G . vaginalis -dominant microbiota. 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IgG bound to viral surface can immobilize otherwise readily diffusive viruses to the mucin matrix, excluding them from contacting target cells and facilitating their elimination by natural mucus clearance mechanisms. Cervicovaginal mucus (CVM) is populated by a microbial community, and its viscoelastic and barrier properties can vary substantially not only across the menstrual cycle, but also in women with distinct microbiota. How these variations impact the “muco-trapping” effector function of IgGs remains poorly understood. Here we obtained multiple fresh, undiluted CVM specimens ( n  = 82 unique specimens) from six women over time, and employed high-resolution multiple particle tracking to quantify the mobility of fluorescent Herpes Simplex Viruses (HSV-1) in CVM treated with different HSV-1-binding IgG. The IgG trapping potency was then correlated to the menstrual cycle, and the vaginal microbial composition was determined by 16 s rRNA. 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subjects Allergology
Antibodies
Antibodies, Viral - immunology
Biomedical and Life Sciences
Biomedicine
Cell Line
Cervix Mucus - immunology
Cervix Mucus - virology
Cervix Uteri - immunology
Cervix Uteri - virology
Commensals
Female
Gastroenterology
HEK293 Cells
Herpes simplex
Herpes Simplex - immunology
Herpes viruses
Humans
Immunization (passive)
Immunization, Passive - methods
Immunoglobulin G
Immunoglobulin G - immunology
Immunology
Menstrual cycle
Menstrual Cycle - immunology
Menstruation
Microbiota
Mucin
Mucosa
Mucus
RNA, Ribosomal, 16S - immunology
rRNA
Simplexvirus - immunology
Trapping
Vagina
Vagina - immunology
Vagina - virology
Viscoelasticity
title Herpes simplex virus-binding IgG traps HSV in human cervicovaginal mucus across the menstrual cycle and diverse vaginal microbial composition
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